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      Plasmonic circuits for manipulating optical information

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      Nanophotonics
      Walter de Gruyter GmbH

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          Abstract

          Surface plasmons excited by light in metal structures provide a means for manipulating optical energy at the nanoscale. Plasmons are associated with the collective oscillations of conduction electrons in metals and play a role intermediate between photonics and electronics. As such, plasmonic devices have been created that mimic photonic waveguides as well as electrical circuits operating at optical frequencies. We review the plasmon technologies and circuits proposed, modeled, and demonstrated over the past decade that have potential applications in optical computing and optical information processing.

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          Nonlinear plasmonics

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            Antennas for light

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              Generation of single optical plasmons in metallic nanowires coupled to quantum dots.

              Control over the interaction between single photons and individual optical emitters is an outstanding problem in quantum science and engineering. It is of interest for ultimate control over light quanta, as well as for potential applications such as efficient photon collection, single-photon switching and transistors, and long-range optical coupling of quantum bits. Recently, substantial advances have been made towards these goals, based on modifying photon fields around an emitter using high-finesse optical cavities. Here we demonstrate a cavity-free, broadband approach for engineering photon-emitter interactions via subwavelength confinement of optical fields near metallic nanostructures. When a single CdSe quantum dot is optically excited in close proximity to a silver nanowire, emission from the quantum dot couples directly to guided surface plasmons in the nanowire, causing the wire's ends to light up. Non-classical photon correlations between the emission from the quantum dot and the ends of the nanowire demonstrate that the latter stems from the generation of single, quantized plasmons. Results from a large number of devices show that efficient coupling is accompanied by more than 2.5-fold enhancement of the quantum dot spontaneous emission, in good agreement with theoretical predictions.
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                Author and article information

                Journal
                Nanophotonics
                Walter de Gruyter GmbH
                2192-8614
                2192-8606
                January 24 2017
                January 26 2016
                January 1 2017
                January 24 2017
                January 26 2016
                January 1 2017
                : 6
                : 3
                Article
                10.1515/nanoph-2016-0131
                4c455427-b26c-47dc-9ad7-cfe748d14f19
                © 2017

                http://creativecommons.org/licenses/by-nc-nd/3.0

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